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Pure water boils at 373.15 K and nitric ...

Pure water boils at `373.15 K` and nitric acid boils at `359.15 K`. An azeotropic mixture of `H_(2)O` and `HNO_(3)` boils at `393.15 K`. Distilling the azeotropic mixture will cause

A

pure water to distil over first

B

pure nitric acid to distil over first

C

one of them to distil over with a small amount of the other.

D

both of them to distil over in the same composition as that of the mixture being distilled.

Text Solution

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The correct Answer is:
4

Azeotropes are binary mixture (nonideal solutions) which have the same composition in liquid and vapour phase and hence boil at a constant temperature. In such cases, it is not possible to seprate the components.
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represents the distillation of mixture of liquid A and liquid B which gives both of pure liquid A and B . Represents the azeotropic mixture of HNO_(3) and H_(2)O which distillation gives an azeotropic mixture and either of pure liquid. We cannot separate both the pure liquid, i.e., H_(2)O and HNO_(3) . Which of the following statements is/are correct? i. HNO_(3) solution is not obeying the Raoult's law. ii. More the difference in vapour pressure of pure compounds forming a mixture, easier to separate them through distillation. iii. T_(2) is less than T_(1) because the liquid of composition Q is richer in more volatile component.